The rules neurons follow to make sense of what we see
Brain cells take in many signals through thousands of circuit connections. A new study discerns the rules that turn inputs into a functional arrangement for neurons that process vision.
Brain cells take in many signals through thousands of circuit connections. A new study discerns the rules that turn inputs into a functional arrangement for neurons that process vision.
Using immune-remodeling mRNA molecules, researchers generated T cells that can slow tumor growth and, in some cases, eradicate tumors.
Researchers propose a challenge to the traditional view of how the brain uses its ability to categorize.
Using advanced human cell cultures, MIT researchers tracked how two different mutations alter neural circuit development, and how each could be addressed with distinct potential therapeutics.
By monitoring these chromosomal structures over many timescales, MIT researchers found that chromatin helps bring genes closer to their regulatory elements.
Neural interaction with bacteria has important effects on animal brains. A new study investigates how neurons sense bacteria by revealing, in nematodes, the bacterial signals that a key neuron detects.
MIT scientists create a detailed map of exactly what happens in the brains of C. elegans worms when they “follow their nose” to savor attractive odors or avoid unappealing ones.
Long thought to be mainly a structural support, the cell membrane also influences how cells respond to signals and may contribute to the growth of cancer cells.
The cells can survive in the body for at least three months, producing enough insulin to control blood sugar levels, research shows.
A backup survival pathway can help tumor cells resist certain lung cancer and other drugs. Combining therapies may offer a solution.
Discovering this common mechanism could lead to a universal anesthesia-delivery system to monitor patients more effectively.
By showing the problem derives from genetic mutations that lead to overexpression of a microRNA, MIT researchers’ study points to potential treatment.
Using a computational model, neuroscientists showed how the brain can selectively focus attention on one voice among others in a noisy environment.
The engineered tissue grafts could take on the liver’s function and help thousands of people with liver failure.
By providing holistic information on a cell, an AI-driven method could help scientists better understand disease mechanisms and plan experiments.